At Unveil Bio, we aim to significantly enhance research efficiency of biotechnology firms and academic institutions. Key industry players, such as Novozymes and Novo Nordisk, as well as universities, routinely manipulate DNA in microbial and mammalian cells to introduce novel functions such as new enzymes for laundry detergents (Novozymes). A vital step in this research process involves modifying DNA and verifying its sequence accuracy. Conventional Sanger sequencing methods are limited to resolving 1,000 DNA bases at a time, requiring numerous sequencing reactions to resolve larger sequences of interest. With Oxford Nanopore sequencing 100,000s of DNA bases can be sequenced at once. Yet, this new technology was not readily applicable for the DNA (Plasmid DNA) used by researchers. Leveraging our expertise in next generation sequencing and automation, we now offer full plasmid sequencing as a convenient, affordable, and high quality service so that researchers can save resources and focus on making their next big discovery.

The DeQD project represents a collaborative effort to advance quantum photonic technology, ultimately enabling the creation of synchronized, indistinguishable photons and advancing the fields of optical quantum computing and secure quantum communication. This progress hinges on innovative approaches to quantum material growth and device integration. A single chip housing single-photon sources capable of generating multiple synchronous and indistinguishable photons on demand is a sought-after component in quantum computation and quantum cryptography. Optical quantum computing is a rapidly advancing approach, and deterministic single-photon sources offer a promising avenue for scaling up. Previous work has confirmed the feasibility of this approach, demonstrating that the photon quality is sufficient to achieve quantum advantage. Scaling up to multiple single-photon sources is the next significant milestone, demanding further progress in quantum material growth and device fabrication. The outcome of the DeQD project is a novel method for deterministic growth of quantum dots and integrating them precisely into a photonic structure. Quantum dot growth relies on a molecular beam epitaxy system at DFM, followed by nanofabrication of devices at Sparrow Quantum and optical spectroscopy at NBI.